Because 4-20ma is an industry standard.
300 / 25, or 12/1.
It depends on the shunt feedback resistor on the op-amp, for example with a 10k feedback resistor connecting the output to the inverting input, 1 mA input current gives 10 volts signal output. The input terminal stays near zero voltage because of the high open-loop gain of the op-amp, so the inverting input is termed a 'virtual earth'.
To find the increase in current when 15 volts is applied to a 1000-ohm rheostat, we can use Ohm's Law, which states ( I = \frac{V}{R} ). With 15 volts applied and the resistance set to 1000 ohms, the current is ( I = \frac{15V}{1000\Omega} = 0.015A ) or 15 mA. If the rheostat was previously at a higher resistance (10,000 ohms), the current would have been ( I = \frac{15V}{10000\Omega} = 0.0015A ) or 1.5 mA. Thus, the increase in current is ( 15 mA - 1.5 mA = 13.5 mA ).
It depends on how the diode is damaged. There are generally two cases. One, the diode is shorted, and conducts with a low impedance in both directions. The other, the diode is open, and does not conduct, having a high impedance, in both directions. The effect depends on the particular circuit. In a power supply, a shorted diode will often blow the fuse, while an open diode will result in no output, or in high ripple voltage output. Is it possible that diode has normal voltage output but wrong current,meaning low mA?
To find the peak current in the primary coil, we can use the power equation. The output power is (P = V \times I = 4.6 , \text{V} \times 0.6 , \text{A} = 2.76 , \text{W}). Assuming the transformer is ideal and neglecting losses, the input power in the primary coil is also 2.76 W. The primary voltage is 120 V, so the primary current (RMS) is (I_p = \frac{P}{V} = \frac{2.76 , \text{W}}{120 , \text{V}} = 0.023 , \text{A} ) (or 23 mA). The peak current is given by (I_{peak} = I_{rms} \times \sqrt{2} \approx 0.023 , \text{A} \times 1.414 \approx 0.0325 , \text{A} ) (or 32.5 mA).
A: Assuming 100% efficiency 320 ma
There are .42 amps in 420 mA. Equation 420/1000 = .42 amps
Yes, the output current (measured in mA or Amps) on chargers for electronics matters, as it determines how quickly the device can be charged. Higher output currents typically result in faster charging times, but it's important to ensure that the device being charged can handle the higher current to prevent damage.
A CR1216 battery typically has a capacity of around 40 mAh, but its output current in milliamps (mA) can vary depending on the specific application and load. Generally, these batteries can deliver a current of about 5 to 20 mA for short periods, but for continuous use, the current draw should be lower to avoid rapid depletion. Always refer to the manufacturer's specifications for precise details on current output and capacity.
mA stands for milliampere and it is a unit of measurement used to quantify the amount of electrical current flowing in a circuit. In the context of chargers, mA typically refers to the charging speed or current output of the charger, with higher mA values indicating a faster charging rate.
mA stands for mili-Amp, or one-thousandth of an Amp (or Ampere; being the unit of measure of current, or charge carriers; ie electrons in a circuit) 1 mA = 0.001 A
By having a minimum current in your current loop it is possible to detect when there is a fault in the line or the device at the other end has been disconnected. If these errors conditions occur, the current falls to zero, which should never happen in normal operation.
No, Your original adaptor has an output of 3 amps or 3000 ma. As you can see, the one you want to use for a replacement adaptor only has 1000 ma output, one third of the current capacity that you need.
The mechanical advantage (MA) of a lever is calculated by dividing the input arm length by the output arm length. In this case, the MA would be 36cm (input arm) divided by 6cm (output arm), resulting in a MA of 6.
The mechanical advantage (MA) is calculated as the ratio of the output force to the input force, or the distance the input force acts over compared to the distance the output force moves. The formula for mechanical advantage is MA = output force / input force = input distance / output distance.
Yes. (For any pairing of power supply and device, as long as the voltages are a match (in your case: 9v), and the output (in amps or milliamps (A or mA) of the power supply IS EQUAL TO OR GREATER THAN the current required by the device (in your case 1300mA or higher) then you will be fine. Yes it is suitable: The OUTPUT VOLTAGE (5v, 9v, 12v, etc) of a power supply MUST BE EQUIVALENT to the required voltage of the device to which it is to be connected, whereas the output CURRENT (500mA, 1A, 1500mA, 2A... etc) offered by the power supply MUST BE AT LEAST EQUAL TO OR GREATER THAN the current required by the device to which it is to be connected. (in your case, for example, as long as the power supply is rated at 9v, you could use one that has a rating of 1300mA, 1400mA, 1500mA, 1A...and so-on, without any damage to either device)
Supply voltage (VCC) 4.5 to 15 V Supply current (VCC = +5 V) 3 to 6 mA Supply current (VCC = +15 V) 10 to 15 mA Output current (maximum) 200 mA Maximum Power dissipation 600mW Power consumption (minimum operating) 30mW@5V, 225mW@15V Operating temperature 0 to 70 °C